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Journal of Bohai University

Note on extended schrdinger equation

Yi-Huan Wei

Published Jan 1, 2006• 0 citations
OpenAlex

Abstract

We try to give an understanding of the extended Schrdinger equation.The state vector of a microscopic system may be described by a real two-dimensional vector.

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Extended schrdinger equation

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We propose a new Ket-Bra entangled state (KBES) method to solve the master equation of finite-level system. The KBES method can convert the master equation into Schrdinger-like equation which is easier to solve than the master equation, and Schrdinger equation in a certain form can also be used to solve the Schrdinger-like equation. Thus the KBES method has a wider application range. In the paper, we mainly study the master equation of the two-level atom. The corresponding master equation is solved by the KBES method, and for the first time we obtain the opera-sum solution of the atom. Furthermore, we compare this result with the well known solution that describes the laser channel. There is much analogousness between both opera-sum solutions, which show that there is some supersymmetry between Bose creation-annihilation operator and upper-down transition operators of atom. Finally, we further analyze the supersymmetry between the bose and atom system, and find that the spin-up and spin-down operator can be represented by the creation and annihilation operator repectively, which can be achieved in infinite ways. It is easy to understand that the bose operator is infinite-level while the spin operator is two-level, thus the creation-annihilation operator is super-complete for the spin operator. Thus the representation is not unique, and all of this directly shows and proves the supersymmetry.

Acta Physica Sinica•Jan 1, 2016•1 citation

The Radial Equation for Free and Bound Particles

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The Time Independent Schrodinger Equation Without Using Energy as a Starting Point

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The time-independent Schrodinger equation is written terms of energy, namely using V(x) the potential and E, the energy eigenvalue. In fact, the equation can be written as KE average(x) + V(x) = E and so can be expressed in terms of a classical energy conservation equation at each point. KE average, however, in such a case is complicated and seems to contain various kinds of kinetic energy motion which only yields on average the classical kinetic energy. The purpose of this note, is to try to determine the form of the time-independent Schrodinger equation without any concept of energy. Only at the end of the discussion, will comparisons be made with classical conservation of energy. In such a discussion, it is assumed that particles undergo a zitterbewegung type motion which can be modeled by exp(ikx) hbar k being the momentum and that there are forces (related to a V(x)) in the one dimensional problem. The objective is to try to understand microscopically what is happening without immediate resort to a conservation equation.

•Jan 5, 2019•0 citations

Hypothesis of Two-Dimensional Linear Equation —— Two-Dimensional Linear Vector Wave Projection Theory and Unified Solutions to Quantum Paradoxes

Jun Yan

For over a century, the Copenhagen interpretation of modern quantum mechanics has been plagued by idealistic tendencies, inconsistent fundamental logic, and the division between the microscopic and macroscopic realms. This paper proposes an original Hypothesis of Two-Dimensional Linear Equation. Grounded on all completed experiments in quantum physics, this hypothesis summarizes objective laws via inductive reasoning, without introducing unknown physical constants or unfalsifiable assumptions. Its core argument is as follows: the objective eigenstates of all material units in the universe stably reside in a two-dimensional orthogonal real linear space, and waves described by two-dimensional constant real vector functions constitute the sole ontological form. Human sensory organs and all physical detection devices are essentially one-dimensional observation systems. Constrained by dimensional barriers, they cannot fully capture two-dimensional ontological vectors and only acquire data through dimensionality reduction projection. A series of counterintuitive experimental phenomena in quantum mechanics, including the illusory wave function collapse, Schrödinger’s cat paradox, anomalous observations in double-slit interference, and abnormal correlations in Bell’s inequality, do not stem from intrinsic uncertainty of microscopic matter, nor do they involve any mechanism whereby consciousness interferes with objective physical laws. All quantum anomalies are essentially projection illusions arising when constant two-dimensional objective vector waves undergo linear dimensionality reduction in one-dimensional observation systems. This paper further clarifies that Heisenberg’s matrix mechanics is not an independent fundamental ontological theory. Its entire matrix operation structure is essentially the practical physical manifestation of the Hypothesis of Two-Dimensional Linear Equation. All observational data adopted by Heisenberg to develop matrix mechanics were wave signals generated by the free evolution of microscopic particles, with no point measurements that could trigger state collapse. From its inception, this theoretical system defined matter based on the manifestation of two-dimensional linear waves, and its mathematical expressions are formulated for one-dimensional observation. Heisenberg summarized observational data and mistook the wave manifestation of free evolution for the intrinsic properties of microscopic particles, failing to recognize that it is merely the natural presentation of two-dimensional vectors within a one-dimensional observation framework. Matrix mechanics was thereby established, laying the groundwork for the subsequent idealistic probabilistic interpretation of the Copenhagen school. This hypothesis redefines the nature of observation: any information collection inevitably leads to energy coupling. Such coupling locks the projection matrix and enforces linear dimensionality reduction from two dimensions to one dimension, which is the physical origin of the so-called "wave function collapse" in academia. Discarding redundant constructs such as Hilbert space, complex wave functions, probability waves, hidden variables and the many-worlds interpretation, this hypothesis completes all derivations solely with elementary real linear algebra and provides unified explanations for all classic quantum paradoxes. It reshapes the worldview of quantum mechanics at the fundamental level, anchors microscopic physics within the framework of objective materialism, and realizes the unification of physical laws governing microscopic particles and macroscopic entities.

•Jun 10, 2026•0 citations
We propose a new Ket-Bra entangled state (KBES) method to solve the master equation of finite-level system. The KBES method can convert the master equation into Schrdinger-like equation which is easier to solve than the master equation, and Schrdinger equation in a certain form can also be used to solve the Schrdinger-like equation. Thus the KBES method has a wider application range. In the paper, we mainly study the master equation of the two-level atom. The corresponding master equation is solved by the KBES method, and for the first time we obtain the opera-sum solution of the atom. Furthermore, we compare this result with the well known solution that describes the laser channel. There is much analogousness between both opera-sum solutions, which show that there is some supersymmetry between Bose creation-annihilation operator and upper-down transition operators of atom. Finally, we further analyze the supersymmetry between the bose and atom system, and find that the spin-up and spin-down operator can be represented by the creation and annihilation operator repectively, which can be achieved in infinite ways. It is easy to understand that the bose operator is infinite-level while the spin operator is two-level, thus the creation-annihilation operator is super-complete for the spin operator. Thus the representation is not unique, and all of this directly shows and proves the supersymmetry.
The time-independent Schrodinger equation is written terms of energy, namely using V(x) the potential and E, the energy eigenvalue. In fact, the equation can be written as KE average(x) + V(x) = E and so can be expressed in terms of a classical energy conservation equation at each point. KE average, however, in such a case is complicated and seems to contain various kinds of kinetic energy motion which only yields on average the classical kinetic energy. The purpose of this note, is to try to determine the form of the time-independent Schrodinger equation without any concept of energy. Only at the end of the discussion, will comparisons be made with classical conservation of energy. In such a discussion, it is assumed that particles undergo a zitterbewegung type motion which can be modeled by exp(ikx) hbar k being the momentum and that there are forces (related to a V(x)) in the one dimensional problem. The objective is to try to understand microscopically what is happening without immediate resort to a conservation equation.
For over a century, the Copenhagen interpretation of modern quantum mechanics has been plagued by idealistic tendencies, inconsistent fundamental logic, and the division between the microscopic and macroscopic realms. This paper proposes an original Hypothesis of Two-Dimensional Linear Equation. Grounded on all completed experiments in quantum physics, this hypothesis summarizes objective laws via inductive reasoning, without introducing unknown physical constants or unfalsifiable assumptions. Its core argument is as follows: the objective eigenstates of all material units in the universe stably reside in a two-dimensional orthogonal real linear space, and waves described by two-dimensional constant real vector functions constitute the sole ontological form. Human sensory organs and all physical detection devices are essentially one-dimensional observation systems. Constrained by dimensional barriers, they cannot fully capture two-dimensional ontological vectors and only acquire data through dimensionality reduction projection. A series of counterintuitive experimental phenomena in quantum mechanics, including the illusory wave function collapse, Schrödinger’s cat paradox, anomalous observations in double-slit interference, and abnormal correlations in Bell’s inequality, do not stem from intrinsic uncertainty of microscopic matter, nor do they involve any mechanism whereby consciousness interferes with objective physical laws. All quantum anomalies are essentially projection illusions arising when constant two-dimensional objective vector waves undergo linear dimensionality reduction in one-dimensional observation systems. This paper further clarifies that Heisenberg’s matrix mechanics is not an independent fundamental ontological theory. Its entire matrix operation structure is essentially the practical physical manifestation of the Hypothesis of Two-Dimensional Linear Equation. All observational data adopted by Heisenberg to develop matrix mechanics were wave signals generated by the free evolution of microscopic particles, with no point measurements that could trigger state collapse. From its inception, this theoretical system defined matter based on the manifestation of two-dimensional linear waves, and its mathematical expressions are formulated for one-dimensional observation. Heisenberg summarized observational data and mistook the wave manifestation of free evolution for the intrinsic properties of microscopic particles, failing to recognize that it is merely the natural presentation of two-dimensional vectors within a one-dimensional observation framework. Matrix mechanics was thereby established, laying the groundwork for the subsequent idealistic probabilistic interpretation of the Copenhagen school. This hypothesis redefines the nature of observation: any information collection inevitably leads to energy coupling. Such coupling locks the projection matrix and enforces linear dimensionality reduction from two dimensions to one dimension, which is the physical origin of the so-called "wave function collapse" in academia. Discarding redundant constructs such as Hilbert space, complex wave functions, probability waves, hidden variables and the many-worlds interpretation, this hypothesis completes all derivations solely with elementary real linear algebra and provides unified explanations for all classic quantum paradoxes. It reshapes the worldview of quantum mechanics at the fundamental level, anchors microscopic physics within the framework of objective materialism, and realizes the unification of physical laws governing microscopic particles and macroscopic entities.